. Someinstitutions (20%) have design courses throughout the curriculum in addition to the capstonedesign sequence, but more programs (40%) have design projects within non-design coursesthroughout the curriculum. The course or courses in the capstone design sequence are primarilyoffered only once a year (78%) with a slight edge to the spring semester/winter quarter (80%)over the fall semester/quarter (72%). Most institutions (78%) include instruction in software orprogramming as part of the course(s). The culminating design project is most often a theoreticaldesign (68%) as opposed to one based on experiments (3%) or resulting in a prototype (7%), andmost institutions do not use the AIChE Design Competition problems (70%). Professional skillsare mainly
Engineering. He is a licensed Professional Engineer with over 30 years of consulting, academic and research experience. He is currently a Professor of Civil Engineering at the United States Coast Guard Academy in New London, CT ©American Society for Engineering Education, 2023Enriching student learning through compelled active participation in a coastal resiliency courseAbstractAs the primary commissioning source for civil engineers for the U.S. Coast Guard, it isimperative that our graduates understand the projected impacts of climate change – sea level rise,altered hurricane patterns, and other associated hazards – on coastal infrastructure. At the UnitedStates Coast Guard
, sustainability of the built environment and more specifically, Building Information Modeling (BIM) workflows for enhanced quality control and labor time utilization for coordinated MEP and specialty trade equipment, from design-to-install, in retrofit environments. Before joining Wentworth, Dr. Cribbs served as a Principal at Green Ideas Building Science Consultants, based in Phoenix where he regularly engaged in BIM workflows for de- sign/constructability/operations analysis, reporting and review with the full spectrum of project stakehold- ers. He has also taught both undergraduate and graduate level courses in design, construction management and Building Information Modeling at Arizona State University and the Frank Lloyd
Paper ID #38735Data Acquisition System to Measure and Monitor Temperatures andAtmospheric Air ParametersDavid N. Long, James Madison University David N. Long is a recent graduate of James Madison University’s, Integrated Science and Technology program. David studied energy and production systems where he worked on the Water Out Of Thin Air project. The aim of the project was to provide clean water with low energy inputs. David concentrated on the Data Collection System which was designed and built to record the key parameters of the project in Costa Rica.Dr. Karim Altaii, James Madison University Dr. Altaii holds a
-funded projects. She has served as the Principal Investigator for National Science Foundation Advanced Technological Education Projects continuously since 1994.Pamela J. Silvers, Asheville-Buncombe Technical Community College Pamela Silvers teaches in the Computer Technologies Department at Asheville-Buncombe Technical Community College. Currently she is Principal Investigator (PI) for an NSF ATE Grant entitled Skilled Workers Get Jobs 2.0: Appalachian Impact which includes ©American Society for Engineering Education, 2023 A Proven Strategy to Improve Funding Success Rates for Two-Year Colleges Seeking Grants from the National Science Foundation Advanced Technological
limitation of curriculum space.One solution to this limitation is to integrate complementary content to enhance the understandingof course concepts without excising existing course materials. We previously developed asemester-long EML project directing students on the process of product development in asophomore-level Biomechanics course. Using this project, we demonstrated in past studies thatthe inclusion of EML in a project can significantly enhance student self-evaluations for curiosity,connections, and value creation compared to a control group of students provided with the sameproject lacking explicit instructions to include EML concepts [5].The incorporation of entrepreneurship skills in biomedical engineering curricula is critical
industrial experience, primarily in the American automotive industry, Dr. Alsayyed has a passion for innovation in education, teaching, research, and training. Integration of academia and industry goals and activities are paramount to Dr. Alsayyed. Sensing the industry needs and preparing future engineers to meet those needs and challenges is an important dimension of Dr. Alsayyed’s ac- tivities. Dr. Alsayyed has published more than forty articles in peer-reviewed journals and conference proceedings. He has seven granted patents. Dr. Alsayyed’s research interests are in the areas of advanced manufacturing, additive manufacturing, design optimization, quality & reliability, engineering education, project management
schemes for a group of autonomous robots. Her teaching interests are in designing robotic projects that promote undergraduate research and integrate interdisciplinary areas (robotics, artificial intelligence, IoT, electronics, and image processing).Justin Bartholomew, New York City College of Technology Justin Bartholomew is a senior student in the department of Computer Engineering Technology (CET) at CUNY-New York City College of Technology. He is interested in circuit design, embedded systems, robotics, artificial intelligence, and Internet of Things (IoT). Justin is currently working as an undergrad- uate research assistant on an NSF collaborative research project ”CISE-MSI: DP: CNS: An Edge-Based Approach to
-hour class time split between lectures and hands-on student design ofprojects. Because the class was composed of students from various backgrounds from Brownand RISD, the Brown instructor’s lectures primarily focused on ensuring a common level ofunderstanding of the hardware and software components involved in each class project. Thismeant students from different disciplines established a foundation of knowledge essential for thesuccessful completion of all projects. Artist Eva Goetz’s lectures enhanced students’ learning byshaping the way they viewed the technology they were learning how to create. She sought toincrease awareness of the greater societal implications of modern robotics and encouragestudents to ponder the ethics of the
providementoring on specific topics or with teams. The most significant number of corporate volunteersare engaged in the twice-per-semester design reviews. To ensure quality deliverables, theprogram has long hosted design reviews, in which volunteers from industry serve as expertpanelists, listening to the student teams’ presentations and giving feedback and suggestions toimprove the projects and support the students’ professional development. Engaging industry indesign reviews has led to a number of positive outcomes, including translation of the moreengaged design reviewers into volunteer team advisors, closer connection with industry partnersyielding financial sponsorships, and more opportunities for students to engage with potentialemployers. As the
students for engineering work after they graduate, especially as they become“innovators (who) seek out new solutions to problems facing our society” [2] many universitiesoffer experiential coursework, such as senior design (a required team-based capstone project),and extracurriculars (e.g., Baja SAE and Design, Build, Fly competition teams). These activitiesand courses provide the collaborative, hands-on, meaningful application of engineering learningthat students need. Explicit instruction in team citizenship, shared leadership, and projectmanagement as well as the other capabilities and knowledge needed by working engineers isusually beyond the scope of these courses and experiences, yet are critical to the completeengineer. To support
people learn and apply design thinking and making processes to their work. He is interested in the in- tersection of designerly epistemic identities and vocational pathways. Dr. Lande received his B.S. in Engineering (Product Design), M.A. in Education (Learning, Design and Technology) and Ph.D. in Me- chanical Engineering (Design Education) from Stanford University. ©American Society for Engineering Education, 2023 Making Spaces to Supporting Formal, Informal, and Nonformal Learning Spanning a University's Makerspace Learning EcologyIntroductionThis cross-case case study [1] project aims to ascribe characteristics of differently orientedmakerspaces across the learning ecology [2] at a
, SacramentoDr. Milica Markovic, California State University, Sacramento Milica Markovic is a Professor of RF Engineering at California State University, Sacramento. She grad- uated from the University of Belgrade, Serbia, and received her Ph.D. in Electrical Engineering from the University of Colorado, Boulder. Her research interests are high-frequency circuits and engineering education. ©American Society for Engineering Education, 2023 WIP: Engineering Gateway Course Redesign for Equity through Critical PathsAbstractIn this paper, we describe an ongoing project involving a comprehensive redesign of sixElectrical and Electronic Engineering (EEE) undergraduate courses at
to control devices, take datafrom sensors, and analyze that data. Each module, inspired by one of the engineering majorsavailable on campus, culminates with a small design project. Each project lends itself tohighlighting different aspects of the design process, as well as different ways of sharingprototypes.Most modules take four laboratory periods, and the basic structure of each module is similar.During the first three lab periods students work in teams of four to build a physical device orobject. The procedures for these first three periods are fairly prescriptive and introduce studentsto new tools, components, techniques, and concepts. As the module progresses, students startconsidering elements of a design challenge that applies their
, and directed many interdisciplinary projects related to design. Dr. Pidaparti’s research interests are in the broad areas of multi-disciplinary design, computational mechanics, nanotechnology, and related topics. Dr. Pidaparti has published over 250 technical papers in refereed journals and conference proceedings. Dr. Pidaparti received a Research Initiation Award from the National Science Foundation and the Young Investigator Award from the Whitaker Foundation. He is a member of Tau Beta Pi, Sigma Gamma Tau, and Who’s Who societies. He is a member of professional societies including AIAA (Associate Fellow), AAAS (Fellow), ASME (Fellow), RAeS (Fellow), and ASEE (member). Dr. Pidaparti will move to University of
understanding of engineering practices and anengineering mindset - in order to engage youth learners more authentically inengineering activities. Launched in April 2022. The website is organized around the 10 Practices for an Engineering Mindset, representing ways that engineers engage in their work to solve problems [1].PCEE Division - ASEE 2023Contact: Dr. Rebecca D. Swanson (rebecca.swanson@unl.edu)Project Team: Dr. Saundra Frerichs, Ann O’Connor, Dr. Merredith PortsmoreThis work is supported by STEM Next Opportunity FundClick2Engineering.OrgResources and Learning Opportunities Learning Blasts and Video-Learning Modules Learning Blasts are asynchronous guides that
3-4 member teams withprojects sponsored by industry, faculty, and institutions (like the AIChE design challenge) orbased on textbook or other literature source [1]. An essential component of those projects is theuse of process simulation software (mainly Aspen), with additional support from some othermathematical software (EXCEL, MATLAB) [1]. The use of textbooks is very diverse, but someare very popular like Turton et al. [2]. The dominant technical content of the course (processdesign, simulation, economics, heuristics, synthesis, plant design, energy integration,optimization) has been increasingly enriched with professional skills (i.e., teamwork, projectmanagement, organizational skills, conflict resolution), ethics, and a broad
professionals isleading universities to adapt their curricula and provide adequate BIM training for the next-generation professionals. The senior design class is a core course for last-year students in manyArchitecture, Civil, and Construction engineering programs. Students are given opportunities towork on a real building project through multiple class activities, BIM software, and lectures bypractitioners. The goal of this research was divided into two parts: 1) Evaluate the teachingmethods for delivering BIM topics in a senior design class. A questionnaire survey was distributedto students; 2) Fill the gap about the need for more research to be conducted on the solutions forimplementing BIM in the AEC industry. The existing research may have
(FYEP) to better prepare students to identify problems and develop solutions aspracticing engineers.BackgroundUpon joining the network, our initial EML implementation efforts focused on restructuring thedesign-build project of our standard course sequence in the FYEP by centering it around the 3Cs.This began by visiting other KEEN institutions to understand how EML is implemented in theirfirst-year engineering courses [12]–[14]. Following these visits, various concepts from the 3Cswere explicitly added to the course curriculum to ensure students were becoming familiar withthe 3Cs and actively applying them in their project work.As it currently stands, the standard course sequence consists of two courses where the secondcourse (ENGR 1182) is
Monitoring Industry-ClassroomProgram for Undergraduate Biomedical Engineering Students Dr. Alexis Ortiz-Rosario,1 and Ali Kaveh Rahimi21 Department of Biomedical Engineering, The Ohio State University, Columbus OH, USA; 2Ohio AtHome Health Care Agency, Columbus, OH, USA AbstractThe at-home remote monitoring sector of healthcare is a growing industry. This healthcaremarket is valued at $24 billion, and it is projected to reach $166 Billion by 2030 [1]. Thisgrowing industry has unique challenges and can promote unique learning opportunities forundergraduate biomedical engineering students [2]. A collaborative industry-classroomprogram was developed along with Ohio At Home Health Care Agency
(NSF) Advanced Technological Education (ATE) grant, seeks to enhance techniciancybersecurity awareness through education and training. The paper provides details on theprocess the project team utilized to develop an initial micro-credential in the area ofcybersecurity for robotics/automation/mechatronics. The paper focuses on the badge creationprocess and outlines how the badge modules developed can be shared to help raise cyberawareness in other fields, such as semiconductors, solar power, and electric vehicles. The badgeleverages the work of other NSF ATE projects, providing a no-cost avenue for automationtechnicians to expand their background by earning a digital badge that enhances their resume.BackgroundToday’s manufacturing involves
. Johnson Austin earned a Bachelor of Science in Civil Engineering from The Pennsylvania State University, a Master’s in Business Administration from the University of Notre Dame, and Doctor of Education in Organizational Change and Leadership from the University of Southern California. At the University of South Florida (USF) she leads the project coordination for the National Science Foundation Florida Alliance for Graduate Education and the Professoriate (FL-AGEP), a $2.4M award to Florida A&M University (with a subaward to USF and Virginia Tech), Bethune-Cookman University, Florida International, and Florida Memorial University. Also, Dr. Johnson Austin is the project coor- dinator and Co-Principal Investigator
. She primarily teaches thermal-fluid sciences as well as introductory and advanced design courses.Amelia Elizabeth Cook, Lipscomb University Amelia Cook is an undergraduate student in the Raymond B. Jones College of Engineering at Lipscomb University. Amelia is studying mechanical engineering and, following her graduation, will be starting her career in engineering consulting as an EIT. She is currently researching the connections of humanitarian engineering projects affecting views of diversity, inclusion, equity, and professional development.Lewis Ngwenya, Lipscomb University Lewis Ngwenya is an undergraduate student at Lipscomb University. He is studying electrical and com- puter engineering and plans to get some
-basedpersonnel. Over the course of a 6-week research experience, each cohort of teachers (20 teachersin the first two years, with 10 more forthcoming in year three) was paired with an engineeringfaculty member on one of five “energy-focused” research project (2 teachers per project). Inaddition to participating in a research project first-hand, teachers also received support developinga curricular unit for the upcoming school year that incorporated their learning from the summerresearch experience.1. IntroductionIn 2009, a Carnegie Foundation commission of notable national leaders, educators, and researcherscommenced the establishment of the NGSS. The primary factor driving this endeavor wasextensive data suggesting the U.S. system of science (and
allow for exploration of the concepts embodied in the materials tetrahedron while atthe same time exploring through project-based learning sustainability and engineering designthinking practices.Course Design: The course is designed to address major concepts important to sustainable designand development and incorporate more deeply the role of materials engineering in sustainabledesign with a focus on polymeric analysis techniques. There are student learning goals for content,professional skills, and technical skills. The course is organized into modules by topic includingSafety, Teamwork Practices, Engineering Entrepreneurship and Mindset, EngineeringDesign, Sustainability, Materials Screening and Selection and the Design Project
programs in the US include a capstonesenior design experience, the level of training that the students receive in the product design anddevelopment process can vary considerably between programs. In some cases, students learn theproduct design process in parallel with their capstone senior design project. In others, there areone or more previous courses that focus on teaching different phases of the product design anddevelopment process. Also, there are other factors that impact student learning such as variationsin the design process favored by each faculty member supervising a capstone senior designproject, the specific design process presented and the terminology used in different productdesign textbooks, and the product design textbook
led electrospinning to find applications in variousbiomedical applications such as tissue engineering and drug delivery [1, 2]. However, severalparameters can greatly affect the production quality of fibers, such as concentration of the polymersolution, voltage, feed rate, and ambient conditions [3]. Controlling the manufacturing ofelectrospun fibers presented a unique engineering problem that could integrate concepts frommultiple bioengineering courses including biomechanics, circuits, computer aided design (CAD),thermodynamics, and biomaterials into a single engineering design project with real-worldapplications. This project served as the basis for a new junior-level design course that will betterprepare students for their senior capstone
produce an idea for a project and thengather a group of other students to bring that idea into fruition. One group chose to create a newtype of challenge-style running blade that would be more affordable to children. Two individualsfrom this group graduated from a TCU and continued to an RU to receive a bachelor’s degree inbiomedical engineering and are employed at their respective TCUs. This perspective brought lightto the inclusion of Native Americans. Together, the entire group learned of various resources thatboth TCUs and RUs have. One of the recent TCU graduates now serves as an instructor ofadvanced manufacturing at their TCU alma mater and informed the group of an opportunity toutilize the impressive array of equipment found there. Due to
sensors to data analysis and insight enabled by dashboards, [Midwestern]University designed and implemented a graduate course in partnership with local industries. Thiscourse has the dual purpose of training the next generation of manufacturing professionals and inthe process supporting regional companies in addressing problems that could be solved with IoTor AI innovations. The goal of this study is to describe how the course was organized anddelivered following design principles of Experiential Learning Theory, and as outcomes of theapproach, we provide a description of the projects the students implemented within the regionalmanufacturing companies.2. Pedagogical FrameworkKolb's Experiential Learning Theory (ELT) [4], [5] was used as an
]that specifically engaged middle school students in learning about fossils and the science of paleontology,researchers from the University of Florida and St. Mary’s College of Maryland designed a year-long teacherPD experience. The Shark AI project leverages middle school students’ interest in fossil shark teeth toexplore ML concepts. Sharks captivate public interest, as evidenced by the popular Shark Weekprogramming on the Discovery Channel [3]. Fossil shark teeth also have a simplistic morphology that variesby species and dietary preference, providing the ideal basis for developing and testing ML models thatcategorize objects using 2-dimensional images.The state of Florida is known for the ability to easily find fossil shark teeth along